1. Daigo Furusu, Masaya Tamura,“Design of Capacitive Planar Power Transmitter and Receiver for Cavity Resonance enabled Wireless Power Transfer,” IEEE Microwave and Wireless Components Letters, Early Access, Jun. 2019.
   https://ieeexplore.ieee.org/document/8764613
2. Masaya Tamura, Yasumasa Naka, Kousuke Murai, Takuma Nakata,“Design of a Capacitive Wireless Power Transfer System for Operation in Fresh Water,” IEEE Trans. Microwave Theory and Techniques, vol. 66, no. 12, pp.5873-5884, Dec. 2018.
   https://ieeexplore.ieee.org/document/8516348
3. Masaya Tamura, Yasumasa Naka, Kousuke Murai,“Design of Capacitive Coupler in Underwater Wireless Power Transfer Focusing on kQ Product,” IEICE Trans. Electron, vol. E101-C, no. 10, pp.759-766, Oct. 2018.
   http://search.ieice.org/bin/summary.php?id=e101-c_10_759
4. Keita Satoh, Masaya Tamura,“Filter using cylindrical quadruple mode SIW resonator,” IEICE Electronics Express, ELEX, vol.15, No.9, pp.1-6, #20180295, Apr. 2018.
   https://www.jstage.jst.go.jp/article/elex/15/9/15_15.20180295/_article
5. Masaya Tamura, Shosei Tomida, Kento Ichinose,“Design and Analysis of Multi-Mode Stripline Resonator and Its Application to Bandpass Filter,” IEICE Trans. Electron, vol. E101-C, no. 3, pp.151-160, Mar. 2018.
   http://search.ieice.org/bin/summary.php?id=e101-c_3_151
6. Ippei Takano, Daigo Furusu, Yosuke Watanabe, Masaya Tamura,“Cavity Resonator Wireless Power Transfer in an Enclosed Space with Scatterers utilizing Metal Mesh,” IEICE Trans. Electron, vol. E100-C, no. 10, pp.841-849, Oct. 2017.
   http://search.ieice.org/bin/summary.php?id=e100-c_10_841
7. Yasumasa Naka, Kyohei Yamamoto, Takuma Nakata, Masaya Tamura,“Improvement in Efficiency of Underwater Wireless Power Transfer with Electric Coupling,” IEICE Trans. Electron, vol. E100-C, no. 10, pp.850-857, Oct. 2017.
   http://search.ieice.org/bin/summary.php?id=e100-c_10_850
8. Masaya Tamura, Yosuke Watanabe, Ippei Takano,“Waveguide-Mode Wireless Power Transfer in Shielded Space with Aperture Plane,” IEICE Electronics Express, ELEX, vol.14, No.8, pp.1-6, #20170195, Mar. 2017.
   https://www.jstage.jst.go.jp/article/elex/14/8/14_14.20170195/_article
9. Shosei Tomida, Kento Ichinose, Masaya Tamura,“Design approach for bandpass filter using triple-mode stripline resonator,” IEICE Electronics Express, ELEX, vol.13, No.12, pp.1-6, #20160380, Jun. 2016.
   https://www.jstage.jst.go.jp/article/elex/13/12/13_13.20160380/_article
10. Tao Yang, Masaya Tamura, Tatsuo Itoh, “Compact and high-performance low-temperature co-fired ceramic balun filter using the hybrid resonator and symmetric four-port network,” IET Journals. Microwaves, Antennas and Propagation, vol.6, No.2, pp.121-126, Jan. 2012.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=6175200
11. Masaya Tamura, Tao Yang, Tatsuo Itoh, “Very Compact and Low-profile LTCC Unbalanced-to-Balanced Filters with Hybrid Resonators,” IEEE Trans. Microwave Theory and Techniques, vol. 59, no. 8, pp. 1925-1936, Aug. 2011.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=5766066
12. Masaya Tamura, Hiroshi Kagata, “Analysis of Metal-Insulator-Metal Structure and Its Application to Sensor,” IEEE Trans. Microwave Theory and Techniques, vol. 58, no. 12, part 2, pp. 3954-3960, Dec. 2010.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=5613229
13. Tao Yang, Masaya Tamura, Tatsuo Itoh, “Super Compact Low-Temperature Co-Fired Ceramic Bandpass Filters Using the Hybrid Resonator,” IEEE Trans. Microwave Theory and Techniques, vol. 58, no. 11, pp. 2896-2907, Nov. 2010.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=5605641
14. Masaya Tamura, Toshio Ishizaki, Mohammed Reza M. Hashemi, Tatsuo Itoh, “Approach of Metamaterial-based Quarter-wave Resonator and its Application to Very Compact LTCC Bandpass Filter,” IEICE Trans. Electron, vol. E93-C, no. 7, pp. 1078-1088, Jul. 2010.
    http://search.ieice.org/bin/summary.php?id=e93-c_7_1078
15. Tao Yang, Masaya Tamura, Tatsuo Itoh, “Compact Hybrid Resonator With Series and Shunt Resonances Used in Miniaturized Filters and Balun Filters,” IEEE Trans. Microwave Theory and Techniques, vol. 58, no. 2, pp. 390-402, Feb. 2010.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=5398820
16. Masaya Tamura, Toshio Ishizaki, Michael Hoft, “Design and Analysis of Vertical Split Ring Resonator and its Application to Unbalanced-balanced Filter,” IEEE Trans. Microwave Theory and Techniques, vol. 58, no. 1, pp. 157-164, Jan. 2010.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=5356155
17. Michael Hoft, Masaya Tamura, Toshio Ishizaki, “Self-Compensation of Alignment Tolerances for Couplings in LTCC Filters,” Frequenz - Journal of RF-Engineering and Telecommunications, vol. 62, no. 9-10, pp. 216-221, Sep. 2008.
    http://www.degruyter.com/dg/viewarticle/j$002ffreq.2008.62.9-10$002ffreq.2008.62.9-10.216$002ffreq.2008.62.9-10.216.xml

1. Masaya Tamura, Kousuke Murai, Yasumasa Naka, “Capacitive Coupler Utilizing Electric Double Layer for Wireless Power Transfer Under Seawater,” in Proc. 2019 IEEE MTT-S Int. Microwave Symposium, Boston, MA, Jun. 2019, pp.1415-1418.
   
2. Shinji Nimura, Daigo Furusu, Ippei Takano, Masaya Tamura,“Improvement in Transmission Efficiency for Cavity Resonance Enabled Wireless Power Transfer by Handling Cavity Impedance,” in Proc. 2018 Asia-Pacific Microwave Conference, Kyoto, Japan, Nov. 2018, pp.1423-1425.
   https://ieeexplore.ieee.org/document/8617389
3. Masaya Tamura, Yasumasa Naka, Kousuke Murai, “Design of Capacitive Coupler for Wireless Power Transfer Under Fresh Water Focusing on kQ Product,” in Proc. 2018 IEEE MTT-S Int. Microwave Symposium, Philadelphia, PA, Jun. 2018, pp.1257-1260.
   https://ieeexplore.ieee.org/document/8439174/
4. Yasumasa Naka, Kousuke Murai, Masaya Tamura,“Design of coupler for high efficiency wireless power transfer under fresh water,” 2017 Asian Wireless Power Transfer Workshop, Singapore, Dec. 2017.
   
5. Kousuke Murai, Yasumasa Naka, Masaya Tamura,“Measurement of complex permittivity for fresh water under high electric field,” 2017 Asian Wireless Power Transfer Workshop, Singapore, Dec. 2017.
   
6. Daigo Furusu, Ippei Takano, Shinji Nimura, Masaya Tamura,“Design and Prototyping of Differential Power Receiver for Cavity Resonance enabled Wireless Power Transfer,” 2017 Asian Wireless Power Transfer Workshop, Singapore, Dec. 2017.
   
7. Ippei Takano, Daigo Furusu, Shinji Nimura, Masaya Tamura,“Development of Power Receiving Control Circuit for Cavity Resonance Enabled Wireless Power Transfer,” 2017 Asian Wireless Power Transfer Workshop, Singapore, Dec. 2017.
   
8. Masaya Tamura, Daigo Furusu, Ippei Takano, “Wireless Power and Information Transfer in Closed Space utilizing Frequency Selected Surfaces,” in Proc. 2017 IEEE MTT-S Int. Microwave Symposium, Honolulu, HI, Jun. 2017, pp.1046-1049.
   http://ieeexplore.ieee.org/document/8058773/
9. Ippei Takano, Daigo Furusu, Yousuke Watanabe, Masaya Tamura, “Study on Cavity Resonator Wireless Power Transfer to Sensors in an Enclosed Space with Scatterers,” Proc. on 2017 IEEE MTT-S Int. Conf. on Microwaves for Intelligent Mobility, Nagoya, Japan, Mar. 2017, pp.1-4.
   http://ieeexplore.ieee.org/document/7918861/
10. Yasumasa Naka, Kyohei Yamamoto, Takuma Nakata, Masaya Tamura, Mitsuru Masuda, “Verification Efficiency of Electric Coupling Wireless Power Transfer in Water,” Proc. on 2017 IEEE MTT-S Int. Conf. on Microwaves for Intelligent Mobility, Nagoya, Japan, Mar. 2017, pp.1-4.
    http://ieeexplore.ieee.org/document/7918862/
11. Masaya Tamura, Kento Ichinose,“Dual Band Filter with Quad-mode Stripline Resonator,” in Proc. of 46th European Microwave Conf., London, England, Oct. 2016, p.1-4.
    http://ieeexplore.ieee.org/abstract/document/7824554/
12. Yosuke Watanabe, Ippei Takano, Masaya Tamura,“Basic Study on Wireless Power Transfer in Shielded Space with Scatterers Based on Waveguide Theory,” 2015 Asian Wireless Power Transfer Workshop, New Taipei, Dec. 2015.
    
13. Kyohei Yamamoto, Yasumasa Naka, Masaya Tamura,“Extraction of Complex Permittivity for Liquid Phase under RF High Power,” 2015 Asian Wireless Power Transfer Workshop, New Taipei, Dec. 2015.
    
14. Masaya Tamura,“Study on Transmission Zero of Filter with CRLH-TL Resonators consisting of Asymmetric Cells,” Proc. of Int. conference on Global Network for Innovative TEchnology, Dec. 2014, pp.197-201.
    
15. Koji Sonoda, Takayuki Fujita, Kensuke Kanda, Kazusuke Maenaka, Hideaki Katsumura, Masaya Tamura, Hiroshi Kagata,“SPICE Modeling of Piezoelectric Energy Harvesting Device utilizing Stress Influence,” Proc. of IEEE The 2nd Int. Workshop on energy and Wireless Sensors, pp.1662-1664, Aug. 2013.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=6682314
16. Masaya Tamura, Hiroshi Kagata, “Analysis of Plasmon Excited by Metal-Insulator-Metal Structure with Insulator Thickness of Hundreds of Nanometers,” in Proc. 2010 IEEE MTT-S Int. Microwave Symposium, Digest, vol. 1, pp. 356-359, May. 2010.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=5515132
17. Toshio Ishizaki, Masaya Tamura, Catherine A. Allen, Tatsuo Itoh, “Left-Handed Band Pass Filter Realized by Coupled Negative Order Resonators,” in Proc. 2008 IEEE MTT-S Int. Microwave Symposium Digest, vol. 2, pp. 1107-1110, Jun. 2008.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=4633250
18. Michael Hoft, Masaya Tamura, Toshio Ishizaki, “Self-compensation of alignment tolerances for series capacitors in LTCC Filters with stepped impedance resonators,” in Proc. German Microwave Conf., Mar. 2008.
19. Masaya Tamura, Toshio Ishizaki, Michael Hoeft, Hidekazu Tamai, “Novel Vertical Split Ring Resonator Fabricated in LTCC,” 2007 IEEE Korea-Japan Microwave Conf., pp. 105-108, Nov. 2007.
    http://ieeexplore.ieee.org/xpl/login.jsp?tp=&arnumber=4402251
20. Shigeaki Kawai, Shigeo Kawasaki, Takeshi Yamamoto, Yasuyuki Sakurai, Harunobu Seita, Katsutoshi Nakajima, Kyoji Kanazawa, Masaya Tamura, Toshio Ishizaki, Tamotsu Suda,“Fabrication of a Proto-Type Active Integrated Antenna for a Compact and High-Power Phased Array System” Proc. of Int. Symposium on Ant. and Prop., pp.1278-1281, Aug. 2007

1. 二村真司，藤井大貴，田村昌也，“キャビティ共振モードWPTにおける反射プローブと電力伝送効率の関係，”信学技報 WPT2019-15, vol.119, no.74，pp.25-30，Jun. 2019.
2. Daiki Fujii, Masaya Tamura, “Design of differential rectifier circuit focusing on load fluctuation of storage capacitor during charging,” IEEE AP/MTT-S Midland Student Express 2019 Spring, S2-5, Nagoya, April 2019.
3. Taichi Shishido, Masaya Tamura, “Development of Low-profile Base Station Filter for Beyond 5G,” IEEE AP/MTT-S Midland Student Express 2019 Spring, S1-3, Nagoya, April 2019.
4. 古巣大吾，田村昌也，“キャビティ共振モードWPTにおける平面型容量性送受電器の開発，”信学技報 MW2018-123, vol.118, no.361，pp.55-59，Dec. 2018.
5. 村井宏輔，松上裕明，田村昌也，“淡水下での電界型無線電力伝送における伝送効率の電力特性，”信学技報 WPT2018-29, vol.118, no.227，pp.1-4，Oct. 2018.
6. 古巣大吾，二村真司，藤井大貴，田村昌也，“キャビティ共振モード無線電力伝送に向けた差動受電器と整流回路の一体化，”信学技報 WPT2018-24, vol.118, no.115，pp.91-96，Jul. 2018.
7. Tatsuya Morita, Masaya Tamura, “Integrated Structure of Filter and Element in Array Antenna for 5th Generation,” IEEE AP/MTT-S Midland Student Express 2018 Spring, S4-4, Nagoya, April 2018.
8. Shinji Nimura, Masaya Tamura, “Matching Method for Cavity Resonance enabled WPT utilizing the Monopole probe with the Variable Reactance Circuit,” IEEE AP/MTT-S Midland Student Express 2018 Spring, S4-2, Nagoya, April 2018.
9. 富田翔晴，田村昌也，“折り返しオープンスタブ装荷メアンダループ共振器を用いた帯域阻止フィルタ，”信学技報 MW2017-182, vol.117, no.462，pp.45-50，Mar. 2018.
10. 富田翔晴，北林智，宮路祐一，田村昌也，“振幅と位相を独立制御可能な反射回路と可変減衰移相器の提案，”信学技報 MW2017-151, vol.117, no.366，pp.53-58，Dec. 2017.
11. 仲泰正，村井宏輔，田村昌也，“淡水下における電界結合方式無線電力伝送の高効率化に向けた結合器設計，”信学技報 WPT2017-49, vol.117, no.318，pp.27-31，Nov. 2017.
12. 古巣大吾，高野一平，二村真司，田村昌也，“キャビティ共振モード無線電力伝送に向けた差動受電器の設計・試作，”信学技報 WPT2017-45, vol.117, no.318，pp.7-10，Nov. 2017.
13. 高野一平，古巣大吾，二村真司，田村昌也，“キャビティ共振モード無線電力伝送のための受電制御システムの提案，”信学技報 WPT2017-44, vol.117, no.318，pp.1-6，Nov. 2017.
14. 長尾拓馬，舟山厚志，田村昌也，“小型・高Q値を狙った4重モード共振器，”信学技報 MW2017-30, vol.117, no.104，pp.49-54，Jun. 2017.
15. Takuma Nagao, Masaya Tamura, “Quadruple-mode cavity resonator aimed at compactness and high Q factor,” IEEE AP/MTT-S Midland Student Express 2017 Spring, S2-5, Nagoya, April 2017.
16. Daigo Furusu, Masaya Tamura, “Wireless Power and Information Transfer Utilizing Frequency Selected Surfaces,” IEEE AP/MTT-S Midland Student Express 2017 Spring, S2-6, Nagoya, April 2017.
17. 富田翔晴，宮路祐一，田村昌也，“逆位相信号合成による全二重無線通信に向けたアナログ自己干渉除去回路の設計手法の提案，”信学技報 MW2016-196, vol.116, no.486，pp.45-50，Mar. 2017.
18. 高野一平，古巣大吾，渡邊耀介，田村昌也，“閉鎖空間内におけるキャビティ共振を用いた無線電力伝送方法に関する研究，”信学技報 WPT2016-62, vol.116, no.452，pp.27-30，Feb. 2017.
19. 仲　泰正，山本恭平，中田拓磨，田村昌也，“電界結合方式を用いた水中無線電力伝送の提案，”信学技報 WPT2016-61, vol.116, no.452，pp.23-26，Feb. 2017.
20. 佐藤慶太，富田翔晴，田村昌也，“コプレーナ線路とグラウンドビアを用いた円筒型SIW多重モード共振器の基礎検討，”信学技報 MW2016-154，vol.116，no.363，pp.123-127，Dec. 2016.
21. Ippei Takano，Masaya Tamura, “Study on point-to-multipoint wireless power transfer technology in the enclosed space with scatterers,” IEEE AP/MTT-S Midland Student Express 2016 Spring, S3-4, Nagoya, April 2016.
22. Shosei Tomida，Masaya Tamura, “Establishment of Design Approach for Bandpass Filter using Triple-mode Stripline Resonator,” IEEE AP/MTT-S Midland Student Express 2016 Spring, S3-3, Nagoya, April 2016.
23. 渡邊耀介，田村昌也，高野一平，“散乱体を有する遮蔽空間における空洞共振器理論を用いた無線電力伝送の基礎検討，”信学技報 WPT2015-75，vol.115，no.446，pp.17-20，Feb. 2016.
24. 田村昌也，山本恭平，仲泰正，“大電力下における液相の複素誘電率算出方法の検討，”信学技報 WPT2015-65，vol.115，no.428，pp.11-14，Jan. 2016.
25. Yosuke Watanabe，Masaya Tamura, “Basic study of efficiency improvement for wireless power transmission in closed space with scatterers,” IEEE AP/MTT-S Midland Student Express 2015 Spring, S4-1, Nagoya, April 2015.
26. 田村昌也，神山祐輔，坂井尚貴，大平 孝，“液相の大電力高周波電気特性に関する評価方法の検討，”信学技報 WPT2015-19，vol.115，no.3，pp.97-102，Apr. 2015.

1. 藤井大貴，古巣大吾，二村真司，田村昌也，“充電時における蓄電キャパシタの負荷変動に着目した差動整流回路の設計，” 2019信学総大，no.B-21-11，p.464，Mar. 2019.
2. 松上裕明，村井宏輔，田村昌也，“淡水の高電界下における複素誘電率測定，” 2019信学総大，no.B-21-6，p.459，Mar. 2019.
3. 二村真司，古巣大吾，田村昌也，“キャビティ共振モードWPTにおける整合プローブの終端リアクタンスと電力伝送効率の関係，”2018信学ソ大，no.B-21-13，p.458，Sep. 2018.
4. 村井宏輔，田村昌也，“電界型水中無線電力伝送結合器の電極設計，”2018信学ソ大，no.B-21-12，p.457，Sep. 2018.
5. 堀江陽介，富田翔晴，宮路祐一，田村昌也，“帯域阻止フィルタによる送受信アンテナ間の自己干渉除去，”2018信学総大，no.C-2-63，p.77，Mar. 2018.
6. 二村真司，古巣大吾，高野一平，田村昌也，“受電位置に依存しないキャビティ共振モードWPTシステムの開発，”2017信学ソ大，no.B-21-22，p.418，Sep. 2017.
7. 村井宏輔，仲　泰正，中田拓磨，田村昌也，“淡水の高電界下における13.56 MHz複素誘電率特性の解明，”2017信学ソ大，no.B-21-20，p.416，Sep. 2017.
8. 古巣大吾，高野一平，二村真司，田村昌也，“キャビティ共振モード無線電力伝送に向けた差動受電器の設計，”2017信学ソ大，no.B-21-23，p.419，Sep. 2017.
9. 富田翔晴，宮路祐一，田村昌也，“一つの90°ハイブリッドで構成するアナログ振幅可変移相器，”2017信学ソ大，no.C-2-10，p.18，Sep. 2017.
10. 古巣大吾，高野一平，渡邊耀介，田村昌也，“周波数選択表面を利用したワイヤレス電力情報伝送の検討，”2017信学総大，no.B-21-6，p.561，Mar. 2017.
11. 高野一平，渡邊耀介，田村昌也，“閉鎖空間内における複数位置への無線電力伝送方法の検討，”2016信学ソ大, no.B-21-27, p.485, Sep. 2016.
12. 舟山厚志，田村昌也，“ダブルヘアピン共振器を用いたデュアルバンドBPFの設計，”2016信学ソ大, no.C-2-31, p.41, Sep. 2016.
13. 山本恭平, 仲泰正, 荒井和輝, 田村昌也，“海中無線電力伝送によるAUV充電システムの試作モデル，”2016信学総大, no.BS-8-1, p.S-31, March 2016.
14. 佐藤慶太, 青柳祐輝, 大平　孝, 田村昌也，“誘導M型フィルタを用いた大電力フィルタの開発，”2016信学総大, no.B-21-29, p.700, March 2016.
15. 舟山厚志, 田村昌也，“デュアルバンドBPFの設計に関する基礎検討，”2016信学総大, no.C-2-63, p.92, March 2016.
16. 仲泰正, 山本恭平, 田村昌也，“複素電圧を用いた誘電率測定系の確度検証，”2016信学総大, no.B-21-11, p.623, March 2016.

1. 田村昌也、“人の手が届かない設備内･装置内･水中でのワイヤレス電力情報伝送,”　豊橋技術科学大学未来ビークルシティリサーチセンター第２２回シンポジウム、愛知県、豊橋技術科学大学、2019年2月
2. 田村昌也、“漏洩電磁波の低減を目指したワイヤレス電力情報伝送技術の開発,”　第３回マイクロ波無線送電技術ビジネス化研究会、東京、機械振興会館、2017年11月
3. 田村昌也，高野一平，古巣大吾，二村真司，“漏洩電磁波を低減した設備・機器内センサへの無線電力情報伝送，”2017信学ソ大，no.BI-2-7，p.SS55-56，Sep. 2017.
4. 田村昌也、“車内、室内、設備内のセンサに向けたワイヤレス電力情報伝送,”　WiPoT WG3、東京、京都大学東京オフィス、2017年1月
5. 田村昌也、“液相の大電力誘電率測定,”　第３回WiPoT シンポジウム、愛知県、豊橋技術科学大学、2015年10月
6. 田村昌也、“ハイブリッドマルチモード共振器とそれを用いたフィルタの基礎検討,”　電子情報通信学会マイクロ波研究会、栃木県、小山工業高専、2015年9月
7. 田村昌也、タオ ヤン、伊藤 龍男、“CRLH-TLの概念を導入したハイブリッド共振器によるアンバランス−バランスフィルタの設計,”　Microwave Workshop & Exhibition、神奈川県、パシフィコ横浜、2013年11月
8. 田村昌也、タオ ヤン、伊藤 龍男、“ハイブリッド共振器を用いた小型・低背のLTCCアンバランス‐バランスフィルタ,” 　電子情報通信学会マイクロ波研究会、広島県、広島大学東広島キャンパス、2013年3月
9. 田村 昌也、“左手共振現象にフォーカスしたメタマテリアルLTCCフィルタの実現,”　第3回メタマテリアル・ワークショップ、京都府、同志社大学 新町キャンパス、2009年12月
10. 田村 昌也、“誘電体積層フィルタの開発,”　IEEE MTT-S Kansai Chapter and IEEE AP-S Kansai Chapter合同若手技術者交流会2008、滋賀県、龍谷大学 瀬田キャンパス、2008年12月

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